distribution. Dr. Natarajarathinam has chaired 91 graduate capstone projects, and several undergraduate capstone projects, and has served on two master’s committees. Dr. Natarajarathinam was chosen as of the “40 under 40” faculty by the American Society of Engineering Educations, Prism Magazine in 2018.Sharon Lynn ChuMathew Kuttolamadom (Associate Professor) © American Society for Engineering Education, 2022 Powered by www.slayte.com ‘All Together Now’ - Integrating Horizontal Skills in Career Technical Education Classes with Making and Micromanufacturing Osazuwa Okundaye 1 , Malini
over 6 years. The students would attend a differentexperience every weekend and conclude the yearly experience with a capstone project. Ouruniversity partnered with RBTV for one weekend workshop experience. The program wasintended to be an in-person event but due to the COVID-19 pandemic, this program wasconducted synchronously through Zoom virtual meetings. Our university is well known for“hands-on” learning, and we decided to keep the experience hands-on even if it had to be virtual.Students participated in STEM-related hands-on projects, connecting them to real lifeapplications and boosting students' interests in different STEM disciplines. The programrepresents part of our university’s ongoing efforts to interest young women in STEM.The
2022 ASEE Midwest Section Conference Introducing LabVIEW and Arduino as Data Acquisition System Alternatives Jackson Marsh, Christy Dunlap, Stephen Pierson, and Han Hu Department of Mechanical Engineering, University of Arkansas, Fayetteville, AR 72701AbstractIn the Department of Mechanical Engineering at the University of Arkansas, LabJack is usedthroughout the undergraduate curriculum for data acquisition (DAQ) in labs and projects.However, data acquisition techniques are not taught, and other DAQ systems are not used. Whendoing research or starting a capstone project, students are presented with the struggle of trying tocater LabJack to their
innovations,such as capstone, hackathon, or studio projects, are encouraged in the course to pursue societallysignificant applications of their innovations.ENT330 consists of three modules that are similar to those of a traditional entrepreneurshipcourse: opportunity discovery, risk reduction, and strategy evaluation. However, thecorresponding activities (Table 1, left) are conducted in the context of the SBIR program (Table1, right). Students’ major work product is an SBIR proposal. Students are not required tosubmit their proposals, as this has legal prerequisites including the formation and registration ofa for-profit entity, and post-award requirements including the availability of students to conductthe funded work, to which students might not
, Introduction to Structures for Architecture Students, Post-Tension Design, Building Failures and Forensic Techniques and the 5th-Year Senior Thesis ( a year-long capstone experience). Creating an interaction between students in his courses and industry practitioners / mentors is one of his signature activities. In recognition of this focus, Professor Parfitt has been awarded multiple outstanding advising, teaching, and student advocate awards including being named a Penn State Teaching Fellow at the University level. Working in industry both before and during his time as an educator, Parfitt has over 40 years of experience in structural design, architectural systems and building science applications, and forensic engineering
the future we will be developing, piloting, and implementing our 4th and final module onSoftware Engineering and Games. This module carries 3 main themes across its learning activitiesincluding software engineering processes (prototyping, testing, teamwork), human computerinteraction (HCI) (usability), and ethics (accessibility, security, etc). To situate this this lesson in ameaningful and engaging context, we explore both casual, collaborative games as well as seriousgames, or games with a purpose. These lessons will build on each other and students will end themodule with a final capstone project that incorporates many of the learning objectives they’veexperienced earlier in the course. This unit also capitalizes on videos and guest
,advanced R&D testing and troubleshooting, and automation and controls. This work-in-progressdetails the development of the SkyBayTech Electronics Technician program at SkylineCommunity College, a small Hispanic Serving Institution (HSI) in the San Francisco Bay Area.Funded by the National Science Foundation’s Advancing Technological Education (ATE)program, the SkyBayTech program is designed to meet current local workforce needs throughhands-on and project-based learning experiences for students to gain the knowledge, skills, andcompetencies needed within the local technician workforce. The paper and poster detail: (1)needs assessment within the local workforce, (2) newly developed curriculum and stackablecertificates in electronics technology
Paper ID #36428Using Topology Optimization in an UndergraduateClassroom SettingSubodh Subedi Subodh C. Subedi is a PhD candidate at the Department of Mechanical Engineering at University of Wisconsin-Madison. He is currently working towards his PhD on design for metal additive manufacturing. During his graduate studies, he has worked as a Teaching Assistant (TA) for courses such as Machine Component design, Computer Aided Engineering, and Design Optimization. He is passionate about teaching and has been mentoring undergraduate students in Capstone projects. Apart from graduate studies, he has been actively involved
to measure the effectiveness of “generic” writing center tutors on the technicalwriting skills of senior-level Mechanical Engineering Technology students. A set of nineteenstudent analysis reports selected from a capstone design course were used as the source of thedata. The reports were assessed both before and after a tutoring session using a version of theAAC&U VALUE rubric and a voice-development-style-diction method developed by theauthors. By both methods, the improvements in student writing from before the tutoring sessionto afterwards were marginal at best, with some measures even showing a decrease inperformance. The sole exception was that a significant increase in hedging, boosting, andattitude words appeared in the students
sustainability [3]. Given the NSPE Code of Ethics areconsistent with ABET outcomes, NSPE has been referenced as one such framework for teachingengineering ethics [4]. Engineering ethics is most frequently taught as (1) individual philosophy courses, (2)brief discussions in connection with well-known cases of engineering failure, or (3) moduleswhich extend across multiple class sessions (e.g., capstone design) [5-6]. Independent of thevenue, Colby and Sullivan [4] note the lack of active learning utilized in engineering ethicseducation. Escape rooms are one active learning teaching strategy increasingly being used inengineering education in which a group solves a series of puzzles in a set amount of time to‘win’ [7]. The gamification of learning
teach applied mathematics supplemented withcomputational tools for engineering applications. Embedding authentic and contextual learningopportunities throughout the degree programmes supported by industry and communitypartnerships provides catalysts for embedding EDI values. Interdisciplinary capstone engineeringdesign projects and the choice of an IEP Minor, an interdisciplinary area of study, allows studentto personalize their undergraduate studies. For more information about the IEP, see thesereferences [3, 4, 5].University of San Diego (USD)Students earn a BS/BA in Engineering. The BA comes from the significant amount of liberal artscourses that students take by completing the university’s core curriculum. Students takefoundational courses
other engineering education institutions: at heart, the project aims to helpstudents better understand, and hence be better prepared for, their post-graduation futures. Lackof student preparation in all dimensions needed to succeed in the engineering environment–a“misalignment” between engineering education and practice has long been noted, and manyengineering graduates still endure a challenging transition to the workforce [1], [2]. To addressthis need, engineering educators have incorporated project-based learning in the curriculum [3],[4], [5], including capstones [6] and design projects [7]. [7] proposes more broadly that“curriculum developers and instructors should employ an integrative approach where studentscan connect their use of
course, and literatureproves the effectiveness of XR technology in laboratory courses, construction engineeringprojects, and other courses. Therefore, it is recommended that instructors optimize XRtechnology for their courses.In this paper, the instructors implemented XR technology in senior-level capstone projectcourses. At the University of Connecticut, the project course spans two semesters. Students forma team with three to four students and work with a faculty advisor and an industry mentor tocomplete a professional capstone project. Students complete their proposal in the first semesterand develop their final deliverables during the second semester. Final deliverables include theproject outcome, alternatives, and a report and
@onu.eduIntroductionThe objective of this capstone is to communicate a professor’s status outside of their office tostudents and other faculty members. Students will arrive at a professor’s office to find thatprofessor missing or busy for an unknown reason and an unknown amount of time. Our designwill allow for a professor to display their whereabouts, thus alleviating the issue. The display mustbe readable and fit within the constraining area of their office window. Other portions of productdesign such as charge frequency and energy requirements were also factored into the decisionmatrix.Competitors to this product include what is currently being used by our clients: sticky notes,whiteboards, and papers to convey messages about the professor’s whereabouts
Delivered Course”, in 2017 ASEE Annual Conference & Exposition, 2017 [8]. Devanshi Shah, Elisabeth Kames, et. All, “Examining the Differences in Student Motivation for Industry Projects and Non-Industry Projects in Senior Capstone Design”, in 2019 ASEE Annual Conference & Exposition, 2019 [9]. Savage, Nick, et al. “Motivation of Engineering Students in Higher Education.” Engineering Education, Vol. 6, 2011 [10]. Gero, Aharon, and Gershon Abraham. “Engineering Preparatory Programs: Students’ Academic Motivation.” In Proceedings of the Canadian Engineering Education Association (CEEA), Queen’s University Library, Nov. 2018. [11]. Malek Mohammadi, A., & Hajrasouliha, A., & Cleary
ways that structuraland normative power relations tend to be reproduced [13-16]. In this paper, we investigate aresearch question: • How and over what/whom do faculty engaged in departmental change efforts express agency in this process, with attention to structural, cultural, normative, and interpersonal power relations?Our aim is to characterize hallmarks of consequential agency in change-makers’ talk. This studybrings together efforts from three NSF EEC-funded projects representing five grants, drawingtogether methods and theories across these projects.Theoretical frameworkWe bring together theory on framing agency and intersectional power to support our study aims.First, an intersectional approach to understanding power
senior design capstones were also significantly affected by the pandemic as virtualcommunication, reduced technology access, and social distancing became part of the equation.Goldberg (2020) explained in his senior design course that, “if the lack of prototyping resourcesprevents completion and delivery of the final prototype, we may need to be flexible and modifythe scope of individual projects and course deliverables”[5]. No access to campus facilities suchas laboratories prompted some universities, for example the University of Virginia, to useresources like gamified virtual lab simulations “to enhance student experience and create a moreengaging and effective learning environment” in addition to providing asynchronous material fora
their students attain "… an ability to design a system,component, or process to meet desired needs within realistic constraints such as …ethical(responsibility)…", and "…an understanding of professional and ethicalresponsibilities". Similar accreditation criteria exist for the other undergraduate programsin engineering technology, computer science and applied science. Texas A&MUniversity-Corpus Christi, which offers a B.S. program in engineering technology,requires all students to complete a junior level capstone core course in ProfessionalEthics. The origin of this course can be traced back to the Challenger explosion in 1986,when faculty discussion began regarding the inclusion of such a course in the curriculum.The novel feature of
institutions should supportbased on the existing problem [5].The existing gap between academia and industry has enormous impacts on reducing the chanceof employment for engineering graduates [6]. Many scholars discuss the importance of thedesign skills industry and state that universities should pay more attention to capstone designprojects in their curriculum [7]. Capstone design projects give students the chance to work onreal-world projects, strengthening and linking the information gained during their studies topractical concepts [8].This paper aims to determine the most demanded skills of a graduate in electrical and computerengineering by identifying the curriculum needs based on the skills required by professionalengineers with at least ten
teaching note, 63 peer-reviewed conference proceedings, and was the keynote speaker at the food banks Conference. She works with the Texas Education Agency (TEA) in developing innovative Career and Technical Education (CTE) courses in logistics and distribution. Dr. Natarajarathinam has chaired 91 graduate capstone projects, and several undergraduate capstone projects, and has served on two master’s committees. Dr. Natarajarathinam was chosen as of the “40 under 40” faculty by the American Society of Engineering Educations, Prism Magazine in 2018.Michael Johnson Dr. Michael D. Johnson is a professor in the Department of Engineering Technology and Industrial Distribution at Texas A&M University. He also serves as the
be completed iteratively, it is possible to reach this point for a user story in a matter ofweeks, keeping pace with the fast style of Agile. Validation of the FrameworkAs a means of validating the effectiveness of the framework and acceptance by developers usingAgile frameworks, we developed a questionnaire and interviewed an engineering department’sundergraduate senior capstone project teams. Project teams that qualified to be included in this studywere customer-oriented in nature, included software components in their solution, and used an Agilemethodology such as Scrum or Kanban. Beginning with interviews early in development, each teamwas briefed on the context of this research and provided with
such as printing orientation, infill density, and infill pattern on the mechanicalproperties of the commonly used polylactide (PLA) and its Tough version. Figure 1 PCE Vertical Test Stand (left) and Tinus Olsen Charpy Machine (right).MethodsTwo ET senior design students were assigned to work on this project. The senior design classesare capstone courses where students utilize their cumulative engineering knowledge towards areal-life project through research and experimentation. They come in a sequence of two 3-creditclasses in 2 competitive semesters (Senior Design I & Senior Design II). ASTM standards werefirst researched to determine specimen size and dimensions for the tests performed. Tensile andCharpy impact tests were
Project (full-time research, no classes) Fall 2: two graduate classes, Practicum Project Spring 2: two graduate classes, CapstoneThe Practicum Rotation allows students to spend one month each in three different researchlabs/groups, with the goal of identifying the one research lab/group where students want tocomplete their Practicum Project. This three-semester Practicum Project offers students theopportunity to work collaboratively with faculty and other students as they gain deep experiencein the challenges of working with messy, real-world data in an application area related to theirundergraduate studies in STEM. The Capstone is a graduate course that allows students tosynthesize what they have learned and prepares them for success
students expressedfrustration at being unable to finish the projects they had begun in the Spring of 2020. A first-year student expresses that their instructors terminated the course project at spring break: So, I remember being in the middle of our project in [the first-year design class] when we went online and then they just scrapped the project kind of.For capstone projects, the students and faculty adapted projects to fit the evolving pandemicrestrictions as one participant notes about their experience. And honestly, the biggest thing is Capstone, just Capstone, not being able to do things in- person or the labs. I mean, I think we can sort of, but I think most teams that are seniors made the realization that it
Describeminimum- activity: activity: activity:depth orhigherexperienceSecond- Describe Describe Describeminimum activity: activity: activity:depth orhigherexperiencea. Undergraduate ResearchEach grand challenge scholar is required to assist in solving the engineering grand challengesthat our world faces. They must complete a Capstone experience and take advantage of one ormore of the following opportunities that are available to them through our institution: 1. Engage in undergraduate research experience in an approved team or individual research or design project with a university faculty
after a course or a project although this has mostly been donethrough indirect assessments such as self-report surveys [5, 9, 11-15]. There are a variety ofdifferent surveys that have been shown to address EM in undergraduate students, one of which iscalled the Engineering Student Entrepreneurial Mindset Assessment (ESEMA) [16], which hasbeen shown to have both validity and reliability [17].Due to the nature of most EM studies, survey data is often only gathered for one class level suchas during the first year or senior year [4, 6, 8, 18-20]. Various studies have led to the inferencethat EM in students grows throughout their college curriculum [9, 13, 18, 21-22], though veryfew studies have been done that actually measure longitudinal
the department have adapted the use of formative andsummative assessments in Fall 2020. The courses and the assessments used in these courses areprovided below.The undergraduate course (part of the capstone experience) previously used a midterm exam, acourse quiz, final exam and a student project for assessment. This course was offered in Fall2020 in a combination of synchronous and asynchronous delivery methods. With the redesign toadapt to the online learning environment, weekly Canvas module quizzes were used as formativeassessments. Although, the formative assessments were low-stake quizzes, the formativeassessments enabled the instructor to assess student learning periodically, identify topics thatstudents struggled with, and address
core values. CEIA 2006 Cincinnati Proceedings. Dallas: CEIA.Stwalley III, R. M. (2016). Professional career skills in senior capstone design. ASEE Capstone Conference - Columbus. Washington, DC: ASEE. Retrieved from http://capstonedesigncommunity.org/sites/default/files/proceedings_papers/0022.pdfStwalley III, R. M. (2017). Assessing improvement and professional career skill in senior capstone design through course data. International Journal of Engineering Pedagogy 7(3), 130-146. doi:10.3991/ijepv7i3.7390Utesch, M. C. (2016). A successful approach to study skills: Go4C's projects strengthen teamwork. International Journal of Engineering Pedagogy, 6(1), 35-43. doi:10.3991
studentsalready bring to class (laptops, tablets, smartphones, etc.) and the Nearpod or Top Hat learningapplications to provide instruction that can be delivered in-person or online, both synchronouslyand asynchronously. Examples include multiple different activities that encourage activelearning and student engagement. The sessions are scaffolded so that students learn moreadvanced concepts as they go from First-Year Seminars to Capstone Design Projects, all whilemaintaining the learning outcomes set forth by the Association for College and ResearchLibraries (ACRL) Framework for Information Literacy in Higher Education and theAccreditation Board for Engineering and Technology (ABET). Successes, failures, andmodifications to the model are
, cornerstone design experiences, or senior capstones. Some professional skills thatare acquired through these ABET accredited courses are: the abilities to design a technology-based product orservice, to address a real-world problem, and to communicate effectively. The forced transition to online educationdue to the COVID-19 pandemic exacerbated the fact that higher education students need more self-regulatedlearning (SRL) skills to engage in effective time management, prioritize their tasks, watch lectures, and completeassignments. Most literature concerning self-regulated learning has not acknowledged the underpinnings of howdesign pedagogy and the studio culture can play significant roles in achieving these important skills in engineeringdesign. As